Abstract: Some embodiments provide a novel method for deploying containerized applications. The method of some embodiments deploys a data collecting agent on a machine that operates on a host computer and executes a set of one or more workload applications. From this agent, the method receives data regarding consumption of a set of resources allocated to the machine by the set of workload applications. The method assesses excess capacity of the set of resources for use to execute a set of one or more containers, and then deploys the set of one or more containers on the machine to execute one or more containerized applications. In some embodiments, the set of workload applications are legacy workloads deployed on the machine before the installation of the data collecting agent. By deploying one or more containers on the machine, the method of some embodiments maximizes the usages of the machine, which was previously deployed to execute legacy non-containerized workloads.

Abstract: Some embodiments provide a novel method for deploying containerized applications. The method of some embodiments deploys a data collecting agent on a machine that operates on a host computer and executes a set of one or more workload applications. From this agent, the method receives data regarding consumption of a set of resources allocated to the machine by the set of workload applications. The method assesses excess capacity of the set of resources for use to execute a set of one or more containers, and then deploys the set of one or more containers on the machine to execute one or more containerized applications. In some embodiments, the set of workload applications are legacy workloads deployed on the machine before the installation of the data collecting agent. By deploying one or more containers on the machine, the method of some embodiments maximizes the usages of the machine, which was previously deployed to execute legacy non-containerized workloads.

Abstract: In general, one innovative aspect of the subject matter described in this specification can be embodied in methods that include the actions of receiving a key event at an input method editor (IME) server transmitted to the IME server from an IME client that is in communication with the IME server, wherein the IME server is a stateful server that stores both requests and responses of a communication session between the IME server and the IME client, and the IME client is a stateless IME client that issues a request to the IME server based on the key event, identifying, by the IME server, one or more logographic characters based on the key event, generating, by the IME server, rendering information corresponding to the one or more logographic characters, and transmitting the rendering information from the IME server to the IME client to display the one or more logographic characters.

Abstract: In general, one innovative aspect of the subject matter described in this specification can be embodied in methods that include the actions of receiving a key event at an input method editor (IME) server transmitted to the IME server from an IME client that is in communication with the IME server, wherein the IME server is a stateful server that stores both requests and responses of a communication session between the IME server and the IME client, and the IME client is a stateless IME client that issues a request to the IME server based on the key event, identifying, by the IME server, one or more logographic characters based on the key event, generating, by the IME server, rendering information corresponding to the one or more logographic characters, and transmitting the rendering information from the IME server to the IME client to display the one or more logographic characters.

Abstract: In general, one innovative aspect of the subject matter described in this specification can be embodied in methods that include the actions of receiving an input method editor (IME) server request, the IME server request including one or more tokens and requesting that an IME server be instantiated, the IME server executing one or more IME functions based on a key event sent from an IME client, wherein the IME server is a stateful server that stores both requests and responses of a communication session between the IME server and the IME client, determining that the IME server can be instantiated in a restrictive environment based on the one or more tokens, and instantiating the IME server in the restrictive environment. Other embodiments of this aspect include corresponding systems, apparatus, and computer programs, configured to perform the actions of the methods, encoded on computer storage devices.

Abstract: In general, one innovative aspect of the subject matter described in this specification can be embodied in methods that include the actions of receiving an input method editor (IME) server request, the IME server request including one or more tokens and requesting that an IME server be instantiated, the IME server executing one or more IME functions based on a key event sent from an IME client, wherein the IME server is a stateful server that stores both requests and responses of a communication session between the IME server and the IME client, determining that the IME server can be instantiated in a restrictive environment based on the one or more tokens, and instantiating the IME server in the restrictive environment. Other embodiments of this aspect include corresponding systems, apparatus, and computer programs, configured to perform the actions of the methods, encoded on computer storage devices.

Abstract: The present invention relates to the role of mutations that perturb expression of ZDHHC8 in increased susceptibility to schizophrenia. It is based, at least in part, on the discovery of a mechanism by which a high risk allele disrupts expression of functional ZDHHC 8, and on the discovery that two proteins involved in synaptic pathways associated with schizophrenia interact with ZDHHC8, at least one of which is a substrate for that enzyme.

Abstract: To provide a film for optical element made of liquid crystal polymer whose productivity and economical efficiency are improved; a laminated sheet formed by bonding this film to a polarizing plate; and an optical element which can be optically inspected, and used under an environment of high temperature and high moisutre, and whose surface hardness is so high that the surface is not easily damaged. A long laminated sheet for optical element comprising a liquid crystal polymer layer, and a polarizing film layer; and a long laminated sheet for optical element comprising at least a liquid crystal polymer film layer oriented in the direction oblique to the MD direction at a given angle, and a polarizing film layer.

Abstract: Method and apparatus for generating a solid model of a structural assembly, or solid models of components of such assembly, according to cross sectional shapes of the components and attributes associated with the cross sectional shapes, wherein the components are initially defined by wire frame models or surface models represented by suitable shape data such wire frame data. When a structural assembly is modified in design, the shape data are changed, and the corresponding cross sectional shapes and attributes are changed, so that a modeller modifies the already generated solid model or models, on the basis of the changed cross sectional shapes and attributes. The apparatus includes part data files for respective structural assemblies, and each part data file has component data files for respective components of each assembly, and a relation data file storing component relation data representative of positional relationship of the components of the assembly.

Abstract: A die assembly for processing a plurality of different kinds of works each having a peculiar shape portion providing a peculiar shape and a common shape portion. A multiple face die which has a plurality of processing faces having different shapes each corresponding to the peculiar shape portion of each kind of work, is provided on a base relative to which each work can be positioned by utilizing the common shape portion thereof, such that it is operable to select one of the processing faces.

Abstract: Method and apparatus for generating a solid model of a structural assembly, or solid models of components of such assembly, according to cross sectional shapes of the components and attributes associated with the cross sectional shapes, wherein the components are initially defined by wire frame models or surface models represented by suitable shape data such wire frame data. When a structural assembly is modified in design, the shape data are changed, and the corresponding cross sectional shapes and attributes are changed, so that a modeler modifies the already generated solid model or models, on the basis of the changed cross sectional shapes and attributes. The apparatus includes part data files for respective structural assemblies, and each part data file has component data files for respective components of each assembly, and a relation data file storing component relation data representative of positional relationship of the components of the assembly.